Solutions to meet the world’s mineral needs
Solutions to meet the world’s mineral needs
Solutions to meet the world’s mineral needs
Solutions to meet the world’s mineral needs
As the world shifts towards a more sustainable future, our focus has become centered around our most significant challenges: mineral extraction, water accessibility, and energy efficiency. Our novel Zero Liquid Discharge (ZLD) and Mineral Extraction System optimizes the water desalination process, enabling a more cost- and resource-efficient extraction process of rare earth elements and transition metals—helping communities meet the needs and challenges of the 21st century.
As the world shifts towards a more sustainable future, our focus has become centered around our most significant challenges: mineral extraction, water accessibility, and energy efficiency. Our novel Zero Liquid Discharge (ZLD) and Mineral Extraction System optimizes the water desalination process, enabling a more cost- and resource-efficient extraction process of rare earth elements and transition metals—helping communities meet the needs and challenges of the 21st century.
As the world shifts towards a more sustainable future, our focus has become centered around our most significant challenges: mineral extraction, water accessibility, and energy efficiency. Our novel Zero Liquid Discharge (ZLD) and Mineral Extraction System optimizes the water desalination process, enabling a more cost- and resource-efficient extraction process of rare earth elements and transition metals—helping communities meet the needs and challenges of the 21st century.
As the world shifts towards a more sustainable future, our focus has become centered around our most significant challenges: mineral extraction, water accessibility, and energy efficiency. Our novel Zero Liquid Discharge (ZLD) and Mineral Extraction System optimizes the water desalination process, enabling a more cost- and resource-efficient extraction process of rare earth elements and transition metals—helping communities meet the needs and challenges of the 21st century.
Our Partners:
About
Circular H2O
About
Circular H2O
About
Circular H2O
About
Circular H2O
Circular H2O, was founded with a mission to address the challenges surrounding water accessibility and mineral extraction from water streams. Along with global innovation leaders, we are commercializing a technology that aim to enable an economical path toward a full and circular journey for water and brine processing. The goal is a process where the value is extracted from the brine, virtually leading to a zero-waste process.
Circular H2O, was founded with a mission to address the challenges surrounding water accessibility and mineral extraction from water streams. Along with global innovation leaders, we are commercializing a technology that aim to enable an economical path toward a full and circular journey for water and brine processing. The goal is a process where the value is extracted from the brine, virtually leading to a zero-waste process.
Circular H2O, was founded with a mission to address the challenges surrounding water accessibility and mineral extraction from water streams. Along with global innovation leaders, we are commercializing a technology that aim to enable an economical path toward a full and circular journey for water and brine processing. The goal is a process where the value is extracted from the brine, virtually leading to a zero-waste process.
Circular H2O, was founded with a mission to address the challenges surrounding water accessibility and mineral extraction from water streams. Along with global innovation leaders, we are commercializing a technology that aim to enable an economical path toward a full and circular journey for water and brine processing. The goal is a process where the value is extracted from the brine, virtually leading to a zero-waste process.
The company aims to mature downstream brine processing, by enabling a high purity selective mineral precipitation - leading to more control over the separation for the first time.
The company aims to mature downstream brine processing, by enabling a high purity selective mineral precipitation - leading to more control over the separation for the first time.
The company aims to mature downstream brine processing, by enabling a high purity selective mineral precipitation - leading to more control over the separation for the first time.
The company aims to mature downstream brine processing, by enabling a high purity selective mineral precipitation - leading to more control over the separation for the first time.
Who We Are
Mineral Extraction System optimizes
Who We Are
Mineral Extraction System optimizes
Who We Are
Mineral Extraction System optimizes
Who We Are
Mineral Extraction System optimizes
At Circular H2O, we are driven by a commitment to revolutionizing mineral extraction and water management for a more sustainable future. Our innovative Zero Liquid Discharge (ZLD) and Mineral Extraction System tackles two of the world's greatest challenges: securing water accessibility and maximizing resource efficiency. By partnering with global leaders in technology and innovation, we have developed a cost-effective, closed-loop solution that extracts valuable minerals from brine and wastewater streams, transforming waste into resources and enabling a near zero-waste process. Our mission is to create a future where water is managed responsibly, and essential minerals are sustainably sourced to meet the needs of a rapidly evolving world.
At Circular H2O, we are driven by a commitment to revolutionizing mineral extraction and water management for a more sustainable future. Our innovative Zero Liquid Discharge (ZLD) and Mineral Extraction System tackles two of the world's greatest challenges: securing water accessibility and maximizing resource efficiency. By partnering with global leaders in technology and innovation, we have developed a cost-effective, closed-loop solution that extracts valuable minerals from brine and wastewater streams, transforming waste into resources and enabling a near zero-waste process. Our mission is to create a future where water is managed responsibly, and essential minerals are sustainably sourced to meet the needs of a rapidly evolving world.
At Circular H2O, we are driven by a commitment to revolutionizing mineral extraction and water management for a more sustainable future. Our innovative Zero Liquid Discharge (ZLD) and Mineral Extraction System tackles two of the world's greatest challenges: securing water accessibility and maximizing resource efficiency. By partnering with global leaders in technology and innovation, we have developed a cost-effective, closed-loop solution that extracts valuable minerals from brine and wastewater streams, transforming waste into resources and enabling a near zero-waste process. Our mission is to create a future where water is managed responsibly, and essential minerals are sustainably sourced to meet the needs of a rapidly evolving world.
At Circular H2O, we are driven by a commitment to revolutionizing mineral extraction and water management for a more sustainable future. Our innovative Zero Liquid Discharge (ZLD) and Mineral Extraction System tackles two of the world's greatest challenges: securing water accessibility and maximizing resource efficiency. By partnering with global leaders in technology and innovation, we have developed a cost-effective, closed-loop solution that extracts valuable minerals from brine and wastewater streams, transforming waste into resources and enabling a near zero-waste process. Our mission is to create a future where water is managed responsibly, and essential minerals are sustainably sourced to meet the needs of a rapidly evolving world.
The company is focused on advancing downstream brine processing through high-purity selective mineral precipitation, providing enhanced control over mineral separation
The company is focused on advancing downstream brine processing through high-purity selective mineral precipitation, providing enhanced control over mineral separation
The company is focused on advancing downstream brine processing through high-purity selective mineral precipitation, providing enhanced control over mineral separation
The company is focused on advancing downstream brine processing through high-purity selective mineral precipitation, providing enhanced control over mineral separation
Technology
• Evaporation and membrane free recovery
• Improves efficiency in recovery rate
• Evaporation and membrane free recovery
• Improves efficiency in recovery rate
• Evaporation and membrane free recovery
• Improves efficiency in recovery rate
• Evaporation and membrane free recovery
• Improves efficiency in recovery rate
• Target selective precipitation of minerals
• Increases purity and value of extracted minerals
• Minimizes energy consumption
• Target selective precipitation of minerals
• Increases purity and value of extracted minerals
• Minimizes energy consumption
• Target selective precipitation of minerals
• Increases purity and value of extracted minerals
• Minimizes energy consumption
• Target selective precipitation of minerals
• Increases purity and value of extracted minerals
• Minimizes energy consumption
• Minimizes energy consumption
• Minimizes energy consumption
• Minimizes energy consumption
• Minimizes energy consumption
Technology
Circular H2O is commercializing
Technology
Circular H2O is commercializing
Technology
Circular H2O is commercializing
Technology
Circular H2O is commercializing
Some benefits
Some benefits
Some benefits
• Selective mineral Precipitation
• Up to 99% mineral purity extraction
• 30% reduction in energy
• 95% water recovery
• Selective mineral Precipitation
• Up to 99% mineral purity extraction
• 30% reduction in energy
• 95% water recovery
• Selective mineral Precipitation
• Up to 99% mineral purity extraction
• 30% reduction in energy
• 95% water recovery
Circular H2O is commercializing a patent-protected, membrane-free, energy-efficient Zero Liquid Discharge (ZLD) and Mineral Extraction System. This technology has the ability to integrate as a multiple-step solution within existing systems (e.g., reverse osmosis (RO) plants), allowing it to operate on top of any existing water desalination facility.
Circular H2O is commercializing a patent-protected, membrane-free, energy-efficient Zero Liquid Discharge (ZLD) and Mineral Extraction System. This technology has the ability to integrate as a multiple-step solution within existing systems (e.g., reverse osmosis (RO) plants), allowing it to operate on top of any existing water desalination facility.
Circular H2O is commercializing a patent-protected, membrane-free, energy-efficient Zero Liquid Discharge (ZLD) and Mineral Extraction System. This technology has the ability to integrate as a multiple-step solution within existing systems (e.g., reverse osmosis (RO) plants), allowing it to operate on top of any existing water desalination facility.
Circular H2O is commercializing a patent-protected, membrane-free, energy-efficient Zero Liquid Discharge (ZLD) and Mineral Extraction System. This technology has the ability to integrate as a multiple-step solution within existing systems (e.g., reverse osmosis (RO) plants), allowing it to operate on top of any existing water desalination facility.
Evaporating pongs (massive in size, large footprint, and an ancient method for extracting salt)
Evaporating pongs (massive in size, large footprint, and an ancient method for extracting salt)
Evaporating pongs (massive in size, large footprint, and an ancient method for extracting salt)
Evaporating pongs (massive in size, large footprint, and an ancient method for extracting salt)
Some benefits
• Selective mineral Precipitation
• Up to 99% mineral purity extraction
• 30% reduction in energy
• 95% water recovery
The Problem
The Problem
The Problem
The Problem
Minerals are in High Demand
Minerals are in High Demand
Minerals are in High Demand
Minerals are in High Demand
The world is heavily reliant on minerals like sodium, magnesium, calcium, bromine, lithium, and potassium. Many of these industries, such as magnesium and bromine, are struggling to keep up with current demand. These minerals can be found in large amounts in different brine (sea water, geothermal brine, oil&gas co-produce).
The world is heavily reliant on minerals like sodium, magnesium, calcium, bromine, lithium, and potassium. Many of these industries, such as magnesium and bromine, are struggling to keep up with current demand. These minerals can be found in large amounts in different brine (sea water, geothermal brine, oil&gas co-produce).
The world is heavily reliant on minerals like sodium, magnesium, calcium, bromine, lithium, and potassium. Many of these industries, such as magnesium and bromine, are struggling to keep up with current demand. These minerals can be found in large amounts in different brine (sea water, geothermal brine, oil&gas co-produce).
The world is heavily reliant on minerals like sodium, magnesium, calcium, bromine, lithium, and potassium. Many of these industries, such as magnesium and bromine, are struggling to keep up with current demand. These minerals can be found in large amounts in different brine (sea water, geothermal brine, oil&gas co-produce).
Potable Water Needs are Ever-Increasing
Potable Water Needs are Ever-Increasing
Potable Water Needs are Ever-Increasing
Potable Water Needs are Ever-Increasing
Many places in the world don’t have access to enough naturally potable water and require desalinated water. In the MENA region, for example, water consumption is higher than average, but access to potable running water is scarce in many countries. In the U.S., many regions are already experiencing water shortage,
Many places in the world don’t have access to enough naturally potable water and require desalinated water. In the MENA region, for example, water consumption is higher than average, but access to potable running water is scarce in many countries. In the U.S., many regions are already experiencing water shortage,
Many places in the world don’t have access to enough naturally potable water and require desalinated water. In the MENA region, for example, water consumption is higher than average, but access to potable running water is scarce in many countries. In the U.S., many regions are already experiencing water shortage,
Many places in the world don’t have access to enough naturally potable water and require desalinated water. In the MENA region, for example, water consumption is higher than average, but access to potable running water is scarce in many countries. In the U.S., many regions are already experiencing water shortage,
The Solution
The Solution
The Solution
The Solution
Zero Liquid Discharge (ZLD) & Mineral Extraction System
Zero Liquid Discharge (ZLD) & Mineral Extraction System
Zero Liquid Discharge (ZLD) & Mineral Extraction System
Zero Liquid Discharge (ZLD) & Mineral Extraction System
Circular H2O’s Zero Liquid Discharge (ZLD) and Mineral Extraction System has made mineral extraction from seawater and other brines more cost-competitive and more energy-efficient than traditional mining processes. Coupled in the right sequence, this solution is intended to form a full downstream brine processing sequence.
Circular H2O’s Zero Liquid Discharge (ZLD) and Mineral Extraction System has made mineral extraction from seawater and other brines more cost-competitive and more energy-efficient than traditional mining processes. Coupled in the right sequence, this solution is intended to form a full downstream brine processing sequence.
Circular H2O’s Zero Liquid Discharge (ZLD) and Mineral Extraction System has made mineral extraction from seawater and other brines more cost-competitive and more energy-efficient than traditional mining processes. Coupled in the right sequence, this solution is intended to form a full downstream brine processing sequence.
Circular H2O’s Zero Liquid Discharge (ZLD) and Mineral Extraction System has made mineral extraction from seawater and other brines more cost-competitive and more energy-efficient than traditional mining processes. Coupled in the right sequence, this solution is intended to form a full downstream brine processing sequence.
Zero Liquid Discharge (ZLD)
Zero Liquid Discharge (ZLD)
Zero Liquid Discharge (ZLD)
Zero Liquid Discharge (ZLD)
In this system, brine is mixed with the miscible organic solvent, removing water and concentrating the brine phase ultimately precipitation of solutes from the brine solution. The solid precipitates and other soluble are separated before the mixture is decomposed to drive the vaporization of miscible organic solvent.
In this system, brine is mixed with the miscible organic solvent, removing water and concentrating the brine phase ultimately precipitation of solutes from the brine solution. The solid precipitates and other soluble are separated before the mixture is decomposed to drive the vaporization of miscible organic solvent.
In this system, brine is mixed with the miscible organic solvent, removing water and concentrating the brine phase ultimately precipitation of solutes from the brine solution. The solid precipitates and other soluble are separated before the mixture is decomposed to drive the vaporization of miscible organic solvent.
In this system, brine is mixed with the miscible organic solvent, removing water and concentrating the brine phase ultimately precipitation of solutes from the brine solution. The solid precipitates and other soluble are separated before the mixture is decomposed to drive the vaporization of miscible organic solvent.
Mineral Extraction System
Mineral Extraction System
Mineral Extraction System
Mineral Extraction System
In this system, hard water or high concentration brine mixes in the system as a gas or liquid, driving the fractional precipitation of solutes from the saline brine solution. Solid precipitates are separated before the mixture is decomposed or heated to drive the vaporization of the gas. The gas then undergoes compression and liquefaction before being recycled.
In this system, hard water or high concentration brine mixes in the system as a gas or liquid, driving the fractional precipitation of solutes from the saline brine solution. Solid precipitates are separated before the mixture is decomposed or heated to drive the vaporization of the gas. The gas then undergoes compression and liquefaction before being recycled.
In this system, hard water or high concentration brine mixes in the system as a gas or liquid, driving the fractional precipitation of solutes from the saline brine solution. Solid precipitates are separated before the mixture is decomposed or heated to drive the vaporization of the gas. The gas then undergoes compression and liquefaction before being recycled.
In this system, hard water or high concentration brine mixes in the system as a gas or liquid, driving the fractional precipitation of solutes from the saline brine solution. Solid precipitates are separated before the mixture is decomposed or heated to drive the vaporization of the gas. The gas then undergoes compression and liquefaction before being recycled.
What can we extract?
What can we extract?
What can we extract?
What can we extract?
Lithium Li
Lithium Li
Lithium Li
Lithium Li
The most important use of lithium is rechargeable batteries for mobile phones, electric vehicles, and many other electronics. Lithium chloride is used in air conditioning and industrial drying systems.
The most important use of lithium is rechargeable batteries for mobile phones, electric vehicles, and many other electronics. Lithium chloride is used in air conditioning and industrial drying systems.
The most important use of lithium is rechargeable batteries for mobile phones, electric vehicles, and many other electronics. Lithium chloride is used in air conditioning and industrial drying systems.
The most important use of lithium is rechargeable batteries for mobile phones, electric vehicles, and many other electronics. Lithium chloride is used in air conditioning and industrial drying systems.
Bromine Br
Bromine Br
Bromine Br
Bromine Br
Many over-the-counter life-saving drugs have bromine compounds as a major ingredient. Other than the pharmaceutical applications, bromine is also used in pesticides, and aesthetic applications.
Many over-the-counter life-saving drugs have bromine compounds as a major ingredient. Other than the pharmaceutical applications, bromine is also used in pesticides, and aesthetic applications.
Many over-the-counter life-saving drugs have bromine compounds as a major ingredient. Other than the pharmaceutical applications, bromine is also used in pesticides, and aesthetic applications.
Many over-the-counter life-saving drugs have bromine compounds as a major ingredient. Other than the pharmaceutical applications, bromine is also used in pesticides, and aesthetic applications.
Calcium Ca++
Calcium Ca++
Calcium Ca++
Calcium Ca++
Calcium can be used in the production of some metals, cement and mortar, as well as in the glass industry.
Calcium can be used in the production of some metals, cement and mortar, as well as in the glass industry.
Calcium can be used in the production of some metals, cement and mortar, as well as in the glass industry.
Calcium can be used in the production of some metals, cement and mortar, as well as in the glass industry.
Sodium Na+
Sodium Na+
Sodium Na+
Sodium Na+
Along with chloride, sodium accounts for the majority of the seawater ions. Sodium has multiple uses in the energy sector, and sodium salts have more uses cases, including table salt.
Along with chloride, sodium accounts for the majority of the seawater ions. Sodium has multiple uses in the energy sector, and sodium salts have more uses cases, including table salt.
Along with chloride, sodium accounts for the majority of the seawater ions. Sodium has multiple uses in the energy sector, and sodium salts have more uses cases, including table salt.
Along with chloride, sodium accounts for the majority of the seawater ions. Sodium has multiple uses in the energy sector, and sodium salts have more uses cases, including table salt.
Magnesium Mg2+
Magnesium Mg2+
Magnesium Mg2+
Magnesium Mg2+
After sodium, it is the most commonly found mineral in oceans. Magnesium salts have a wide range of industrial and dietary use cases.
After sodium, it is the most commonly found mineral in oceans. Magnesium salts have a wide range of industrial and dietary use cases.
After sodium, it is the most commonly found mineral in oceans. Magnesium salts have a wide range of industrial and dietary use cases.
After sodium, it is the most commonly found mineral in oceans. Magnesium salts have a wide range of industrial and dietary use cases.
Sulfate SO4
Sulfate SO4
Sulfate SO4
Sulfate SO4
Sulphate-based salts are used as foaming agents, care products, construction, and other industrial applications.
Sulphate-based salts are used as foaming agents, care products, construction, and other industrial applications.
Sulphate-based salts are used as foaming agents, care products, construction, and other industrial applications.
Sulphate-based salts are used as foaming agents, care products, construction, and other industrial applications.
Potassium K+
Potassium K+
Potassium K+
Potassium K+
Potassium is the sixth most abundant element dissolved in seawater. Potassium has many dietary benefits and agriculture uses.
Potassium is the sixth most abundant element dissolved in seawater. Potassium has many dietary benefits and agriculture uses.
Potassium is the sixth most abundant element dissolved in seawater. Potassium has many dietary benefits and agriculture uses.
Potassium is the sixth most abundant element dissolved in seawater. Potassium has many dietary benefits and agriculture uses.
Chloride Cl-
Chloride Cl-
Chloride Cl-
Chloride Cl-
Common salt can be separated from sea water by evaporation as NaCl.
Common salt can be separated from sea water by evaporation as NaCl.
Common salt can be separated from sea water by evaporation as NaCl.
Common salt can be separated from sea water by evaporation as NaCl.
MORE ELEMENTS
MORE ELEMENTS
MORE ELEMENTS
MORE ELEMENTS
Ammonium (NH4+)
Ammonium (NH4+)
Ammonium (NH4+)
Ammonium (NH4+)
Iron (Fe++)
Iron (Fe++)
Iron (Fe++)
Iron (Fe++)
Boron (as B+++)
Boron (as B+++)
Boron (as B+++)
Boron (as B+++)
Arsenic (As)
Arsenic (As)
Arsenic (As)
Arsenic (As)
Copper (Cu)
Copper (Cu)
Copper (Cu)
Copper (Cu)
Molybdenum (Mo)
Molybdenum (Mo)
Molybdenum (Mo)
Molybdenum (Mo)
Silica (SiO2)
Silica (SiO2)
Silica (SiO2)
Silica (SiO2)
Nitrate (NO3)
Nitrate (NO3)
Nitrate (NO3)
Nitrate (NO3)
Nitrite (N)
Nitrite (N)
Nitrite (N)
Nitrite (N)
How It Works
In Mineral Extraction System optimizes
How It Works
In Mineral Extraction System optimizes
How It Works
In Mineral Extraction System optimizes
How It Works
In Mineral Extraction System optimizes
1
Initial Step
Initial Step
Initial Step
Initial Step
In the first stage of the system, the liquid DME comes into contact with the brine or aqueous (fluid to be treated) at a selected controlled pressure and temperature point, which induces the precipitation of salts.
In the first stage of the system, the liquid DME comes into contact with the brine or aqueous (fluid to be treated) at a selected controlled pressure and temperature point, which induces the precipitation of salts.
In the first stage of the system, the liquid DME comes into contact with the brine or aqueous (fluid to be treated) at a selected controlled pressure and temperature point, which induces the precipitation of salts.
In the first stage of the system, the liquid DME comes into contact with the brine or aqueous (fluid to be treated) at a selected controlled pressure and temperature point, which induces the precipitation of salts.
3
2
Salt Settling
Salt Settling
Salt Settling
Sequential Salt Precipitation
The salts settle at the bottom of the container and are removed as a slurry. The slurry can be fed into a selective precipitation system where specific byproducts can be extracted.
The salts settle at the bottom of the container and are removed as a slurry. The slurry can be fed into a selective precipitation system where specific byproducts can be extracted.
The salts settle at the bottom of the container and are removed as a slurry. The slurry can be fed into a selective precipitation system where specific byproducts can be extracted.
In the sequential stages, as the DME encounters the salt slurry, it induces the precipitation of salt(s) near saturation. The solid salts may be separated via gravity methods, hydrocyclone, or ultrafiltration.
2
3
Sequential Salt Precipitation
Sequential Salt Precipitation
Sequential Salt Precipitation
Salt Settling
In the sequential stages, as the DME encounters the salt slurry, it induces the precipitation of salt(s) near saturation. The solid salts may be separated via gravity methods, hydrocyclone, or ultrafiltration.
In the sequential stages, as the DME encounters the salt slurry, it induces the precipitation of salt(s) near saturation. The solid salts may be separated via gravity methods, hydrocyclone, or ultrafiltration.
In the sequential stages, as the DME encounters the salt slurry, it induces the precipitation of salt(s) near saturation. The solid salts may be separated via gravity methods, hydrocyclone, or ultrafiltration.
The salts settle at the bottom of the container and are removed as a slurry. The slurry can be fed into a selective precipitation system where specific byproducts can be extracted.
4
DME Gas Separation
DME Gas Separation
DME Gas Separation
DME Gas Separation
The temperature and pressure are then adjusted, allowing the DME to become gas (and separate from the water) and be compressed back to gas to be re-used in a closed-loop cycle.
The temperature and pressure are then adjusted, allowing the DME to become gas (and separate from the water) and be compressed back to gas to be re-used in a closed-loop cycle.
The temperature and pressure are then adjusted, allowing the DME to become gas (and separate from the water) and be compressed back to gas to be re-used in a closed-loop cycle.
The temperature and pressure are then adjusted, allowing the DME to become gas (and separate from the water) and be compressed back to gas to be re-used in a closed-loop cycle.
Market Applications
Circular H2O Zero-Waste Water
Market Applications
Circular H2O Zero-Waste Water
Market Applications
Circular H2O Zero-Waste Water
Market Applications
Circular H2O Zero-Waste Water
Seawater Desalination
Seawater Desalination
Seawater Desalination
Seawater Desalination
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The Problem
The Problem
The Problem
The Problem
Seawater desalination plants produce large quantities of high-salinity brine, which is discharged back into the sea, harming marine ecosystems and increasing local salinity. This makes the process environmentally unsustainable and economically challenging for widespread adoption, especially in water-scarce regions.
Seawater desalination plants produce large quantities of high-salinity brine, which is discharged back into the sea, harming marine ecosystems and increasing local salinity. This makes the process environmentally unsustainable and economically challenging for widespread adoption, especially in water-scarce regions.
Seawater desalination plants produce large quantities of high-salinity brine, which is discharged back into the sea, harming marine ecosystems and increasing local salinity. This makes the process environmentally unsustainable and economically challenging for widespread adoption, especially in water-scarce regions.
Seawater desalination plants produce large quantities of high-salinity brine, which is discharged back into the sea, harming marine ecosystems and increasing local salinity. This makes the process environmentally unsustainable and economically challenging for widespread adoption, especially in water-scarce regions.
The Solution
The Solution
The Solution
The Solution
The proposed technology extracts valuable minerals from desalination brine, creating additional revenue streams. This offsets operational costs, reducing or potentially eliminating the cost of desalination. By minimizing brine discharge, it also reduces environmental damage, making the process more sustainable and viable.
The proposed technology extracts valuable minerals from desalination brine, creating additional revenue streams. This offsets operational costs, reducing or potentially eliminating the cost of desalination. By minimizing brine discharge, it also reduces environmental damage, making the process more sustainable and viable.
The proposed technology extracts valuable minerals from desalination brine, creating additional revenue streams. This offsets operational costs, reducing or potentially eliminating the cost of desalination. By minimizing brine discharge, it also reduces environmental damage, making the process more sustainable and viable.
The proposed technology extracts valuable minerals from desalination brine, creating additional revenue streams. This offsets operational costs, reducing or potentially eliminating the cost of desalination. By minimizing brine discharge, it also reduces environmental damage, making the process more sustainable and viable.
Geothermal Brine
Geothermal Brine
Geothermal Brine
Geothermal Brine
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The Problem
The Problem
The Problem
The Problem
Geothermal energy production generates brine that can yield valuable minerals like lithium, but high capital costs prevent widespread extraction. Only one plant in the U.S. is currently recovering lithium from geothermal brine, limiting its potential use.
Geothermal energy production generates brine that can yield valuable minerals like lithium, but high capital costs prevent widespread extraction. Only one plant in the U.S. is currently recovering lithium from geothermal brine, limiting its potential use.
Geothermal energy production generates brine that can yield valuable minerals like lithium, but high capital costs prevent widespread extraction. Only one plant in the U.S. is currently recovering lithium from geothermal brine, limiting its potential use.
Geothermal energy production generates brine that can yield valuable minerals like lithium, but high capital costs prevent widespread extraction. Only one plant in the U.S. is currently recovering lithium from geothermal brine, limiting its potential use.
The Solution
The Solution
The Solution
The Solution
The proposed technology integrates with geothermal brine systems post-heat exchanger to optimize energy use and efficiently extract lithium and magnesium. The remaining brine is reinjected to maintain reservoir pressure, enhancing sustainability while maximizing mineral extraction.
The proposed technology integrates with geothermal brine systems post-heat exchanger to optimize energy use and efficiently extract lithium and magnesium. The remaining brine is reinjected to maintain reservoir pressure, enhancing sustainability while maximizing mineral extraction.
The proposed technology integrates with geothermal brine systems post-heat exchanger to optimize energy use and efficiently extract lithium and magnesium. The remaining brine is reinjected to maintain reservoir pressure, enhancing sustainability while maximizing mineral extraction.
The proposed technology integrates with geothermal brine systems post-heat exchanger to optimize energy use and efficiently extract lithium and magnesium. The remaining brine is reinjected to maintain reservoir pressure, enhancing sustainability while maximizing mineral extraction.
Oil and Gas Brine
Oil and Gas Brine
Oil and Gas Brine
Oil and Gas Brine
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The Problem
The Problem
The Problem
The Problem
Oil and gas extraction produces large volumes of contaminated wastewater, containing salts, heavy metals, and radioactive elements, posing environmental risks if not properly treated or disposed of. Current disposal methods involve subsurface injection, which has limitations.
Oil and gas extraction produces large volumes of contaminated wastewater, containing salts, heavy metals, and radioactive elements, posing environmental risks if not properly treated or disposed of. Current disposal methods involve subsurface injection, which has limitations.
Oil and gas extraction produces large volumes of contaminated wastewater, containing salts, heavy metals, and radioactive elements, posing environmental risks if not properly treated or disposed of. Current disposal methods involve subsurface injection, which has limitations.
Oil and gas extraction produces large volumes of contaminated wastewater, containing salts, heavy metals, and radioactive elements, posing environmental risks if not properly treated or disposed of. Current disposal methods involve subsurface injection, which has limitations.
The Solution
The Solution
The Solution
The Solution
The proposed technology can sequentially extract heavy metals and valuable minerals from wastewater, creating revenue streams while enabling more sustainable water management in the oil and gas industry. Extracted minerals like bromine, potassium chloride, and lithium can be recycled or sold.
The proposed technology can sequentially extract heavy metals and valuable minerals from wastewater, creating revenue streams while enabling more sustainable water management in the oil and gas industry. Extracted minerals like bromine, potassium chloride, and lithium can be recycled or sold.
The proposed technology can sequentially extract heavy metals and valuable minerals from wastewater, creating revenue streams while enabling more sustainable water management in the oil and gas industry. Extracted minerals like bromine, potassium chloride, and lithium can be recycled or sold.
The proposed technology can sequentially extract heavy metals and valuable minerals from wastewater, creating revenue streams while enabling more sustainable water management in the oil and gas industry. Extracted minerals like bromine, potassium chloride, and lithium can be recycled or sold.
Industrial Wastewater
Industrial Wastewater
Industrial Wastewater
Industrial Wastewater
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The Problem
The Problem
The Problem
The Problem
Industrial wastewater, resulting from manufacturing processes, contains dissolved or suspended substances. Current treatment methods clean the water for reuse but fail to extract valuable substances, missing opportunities for resource recovery.
Industrial wastewater, resulting from manufacturing processes, contains dissolved or suspended substances. Current treatment methods clean the water for reuse but fail to extract valuable substances, missing opportunities for resource recovery.
Industrial wastewater, resulting from manufacturing processes, contains dissolved or suspended substances. Current treatment methods clean the water for reuse but fail to extract valuable substances, missing opportunities for resource recovery.
Industrial wastewater, resulting from manufacturing processes, contains dissolved or suspended substances. Current treatment methods clean the water for reuse but fail to extract valuable substances, missing opportunities for resource recovery.
The Solution
The Solution
The Solution
The Solution
The proposed technology adds a mineral extraction stage to existing treatments, recovering up to 95% of valuable minerals like lithium from waste streams. This enhances water purification and creates an additional stream of purified minerals for reuse or sale.
The proposed technology adds a mineral extraction stage to existing treatments, recovering up to 95% of valuable minerals like lithium from waste streams. This enhances water purification and creates an additional stream of purified minerals for reuse or sale.
The proposed technology adds a mineral extraction stage to existing treatments, recovering up to 95% of valuable minerals like lithium from waste streams. This enhances water purification and creates an additional stream of purified minerals for reuse or sale.
The proposed technology adds a mineral extraction stage to existing treatments, recovering up to 95% of valuable minerals like lithium from waste streams. This enhances water purification and creates an additional stream of purified minerals for reuse or sale.
Our mission is to address challenges and accelerate change in mineral extraction and water desalination.
Our mission is to address challenges and accelerate change in mineral extraction and water desalination.
Our mission is to address challenges and accelerate change in mineral extraction and water desalination.
Our mission is to address challenges and accelerate change in mineral extraction and water desalination.
EMAIL ADDRESS
EMAIL ADDRESS
EMAIL ADDRESS
EMAIL ADDRESS
info@circularh2o.com
info@circularh2o.com
info@circularh2o.com
info@circularh2o.com
Let's Get Started
Let's Get Started
Let's Get Started
Let's Get Started
We'd love to hear about your project.
We'd love to hear about your project.
We'd love to hear about your project.
We'd love to hear about your project.
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© 2024 Circular H2O. All rights reserved.
© 2024 Circular H2O. All rights reserved.
© 2024 Circular H2O. All rights reserved.
© 2024 Circular H2O. All rights reserved.